Device port cleaner

ABSTRACT

The present invention includes a device cleaner, and method of use, for cleaning a device port, particularly a medical device port, that may be inserted into the device port cleaner for cleaning and/or disinfecting.

CROSS-REFRENCE TO RELATED APPLICATIONS

The application relates to, and claims the benefit of the filing dateof, co-pending U.S. provisional patent application Ser. No. 62/237,234entitled “DEVICE PORT CLEANER,” filed Oct. 5, 2015, the entire contentsof which are incorporated herein by reference for all purposes.

BACKGROUND OF THE INVENTION

Field of the Invention

The present invention relates to device ports, and more particularly toan apparatus and a method for cleaning and/or decontaminating deviceports, including medical device ports.

Description of the Related Art

When treating patients in the medical field, there is a need to preventthe transmission. of pathogens into or onto a patient from a potentiallycontaminated surface of a medical implement, or “site” when infusingfluids or aspiration of fluids to or from a patient. Such pathogensinclude microorganisms such as bacteria and viruses. The transmission ofpathogens into a patient may result in an infection that could be lifethreatening. Traditionally, cleaning a potentially contaminated surfaceincludes a protocol of alcohol swabbing prior to making the necessaryconnections to the site. However, a poorly swabbed site can carrymicroorganisms that, if allowed to enter a patient's body, can causeserious harm. Sometimes, much of medical implements used may be so smallthat it may be difficult to properly cleanse all portions of theimplement, particularly the connecting portions of medical device ports.Even more difficult is the ability to clean the interior surface ofdevice ports that are difficult to access. Therefore, it is desired toprovide a cleaning device that is simple, economical to manufacture, andeffective in cleaning the interior and exterior surface of device ports,particularly medical device ports.

SUMMARY

Provided is a device port cleaner, and method of use, for cleaning adevice port that may be inserted into the device port cleaner.

BRIEF DESCRIPTION OF THE DRAWINGS

For a more complete understanding of the features and advantagesthereof, reference is now made to the following Detailed Descriptiontaken in conjunction with the accompanying drawings, in which:

FIGS. 1 and 2 illustrate an embodiment of a device port cleaner;

FIG. 3 illustrates an exploded view of the device port cleaner;

FIG. 4 illustrates a cross-sectional view of the device port cleaner;

FIG. 5 illustrates a perspective view of an embodiment of the membrane;

FIGS. 6A and 6B illustrate a cross-sectional view of the membrane;

FIGS. 7 and 8 illustrate additional embodiments of the device portcleaner with the membrane being attached along the interior and theexterior of the cleaner, respectively;

FIGS. 9A-9D illustrate a top view of additional embodiments of membranewith different slit configurations in the membrane, respectively;

FIG. 10 illustrates an embodiment of the lid with identification dataprinted on the lid;

FIGS. 11A and 11B illustrate a cross-sectional view of a lid beingpressed into a membrane of the device port cleaner;

FIGS. 12 and 13 illustrate the lid being secured directly over anopening in a reservoir of the device port cleaner;

FIGS. 14 and 15 illustrate the lid being secured directly to themembrane of the device port cleaner;

FIG. 16 illustrates the device port cleaner with a device port insertedthrough the membrane;

FIGS. 17 and 18 illustrate a cross-sectional view of a device port beinginserted into embodiment of the membrane of the device port cleaner;

FIGS. 19 and 20 illustrate a cross-sectional view of a device port beinginserted into another embodiment of the membrane of the device portcleaner;

FIG. 21 illustrates a cross-sectional view of a device port beinginserted into the device port cleaner for cleaning;

FIG. 22 illustrates a device port being inserted into an embodiment ofthe device port cleaner supported on its based;

FIG. 23 illustrates a method of actively disinfecting a device portinserted in the device port cleaner by active manipulation;

FIGS. 24 and 25 illustrate the device port being inserted into thedevice port cleaner and the membrane forming a lip seal around theinserted device port, respectively;

FIGS. 26A and 26B illustrates a device port being inserted into anembodiment of the device port cleaner with a release mechanism;

FIGS. 27A and 27B illustrate an embodiment of the membrane with athreaded portion;

FIGS. 28A-28C illustrate the port device being threaded into the deviceport cleaner;

FIGS. 29A-29C illustrate a female port being threaded into the deviceport cleaner;

FIG. 30 illustrates a zero clearance lip seal between the membrane andthe inserted port device;

FIG. 31 illustrates a zero clearance lip seal between the membrane andthe inserted female port;

FIGS. 32 and 33 illustrate the device port cleaner being used to clean amedical syringe;

FIG. 34 illustrates a cross-sectional view of an embodiment of thedevice port cleaner with additional internal protrusions cleaning theinner and outer surfaces of an inserted medical syringe;

FIG. 35 illustrates an exploded view of yet an additional embodiment ofthe device port cleaner;

FIGS. 36 and 37 illustrate a perspective and sectional view,respectively, of an additional embodiment of the merrtbrane with amembrane flange, a membrane perforation, and a membrane groove;

FIG. 38 illustrates a perspective view of an additional embodiment ofthe reservoir with a reservoir flange, a reservoir extrusion, and areservoir groove;

FIGS. 39A and 39B illustrate an embodiment of the membrane having themembrane flange coupled to the reservoir having the reservoir groove;

FIG. 40 illustrates the reservoir having the reservoir groove sealedwith the lid;

FIGS. 41A-41D illustrate an embodiment of the device port cleaner withthe membrane having the membrane flange and the reservoir having thereservoir groove being used to clean the device port;

FIG. 42 illustrates a sectional view of the device port inserted throughthe membrane having the membrane flange into the reservoir having thereservoir groove; and

FIG. 43 illustrates a method of inserting the device port into thedevice port cleaner by gripping the reservoir grooves on the reservoirof the device port cleaner.

DETAILED DESCRIPTION OF THE INVENTION

In the following discussion, numerous specific details are set forth toprovide a thorough understanding of the present invention. However,those skilled in the art will appreciate that the present invention maybe practiced without such specific details. In other instances, certainspecific details, and the like have been omitted inasmuch as suchdetails are not considered necessary to obtain a complete understandingof the present invention, and are considered to be within theunderstanding of persons of ordinary skill in the relevant art.

In FIGS. 1-15, a device port cleaner 100 is shown. In an embodiment, thedevice port cleaner 100 may be used to clean and sterilize a deviceport. The device port cleaner 100 may clean the device port by insertingat least a portion of the device port into the device port cleaner 100.According to such an embodiment, the device port cleaner 100 may cleanvarious device ports such as medical device ports, needle ports,needleless ports, leer locks, catheter hubs, and the like. The deviceport cleaner 100 may also be used with threaded male and femaleconnectors used with infusion therapies such as but not limited tointravenous lines, pharmaceuticals, chemotherapeutic drugs, supplements,intrathecal, and the like.

Turning to FIGS. 1-3, an embodiment of the device port cleaner 100 isshown. The device port cleaner 100 may comprise a reservoir 20, amembrane 30 and a lid 10. The reservoir 20 may comprise an opening 22that the device port may be inserted into. The membrane 30 may besecured over the opening 22 to create a seal within the reservoir 20.The lid 10 may be positioned over the membrane 30 and the opening 22 toprotect the membrane 30 secured over the opening 22. When lid 10 issecured on the device port cleaner 100, the membrane 30 may bepositioned between the lid 10 and the reservoir 20. The membrane 30 mayseal over the opening 22 of the reservoir 20 to protect the interior ofthe reservoir 20 from the external environment or contaminants beforebeing used. The lid 10 may be positioned over both the reservoir 20 andthe membrane 30 to protect the membrane 30 from being inadvertentlydamaged or punctured prior to use.

The reservoir 20 may be substantially a container capable of holding adisinfecting agent 40 and receiving a device port through the opening22. In the embodiment shown in FIG. 3, the reservoir 20 may be formedlike a round cup. The reservoir 20 may comprise an opening 22 that aport device may be inserted into. However, various shaped containersknown to one of ordinary skill in the arts may be used when forming thereservoir 20. For an example, the reservoir 20 may be formed usingvarious hollowed out structures such as a cube, prism, cylinder, cone,and the like. The reservoir 20 may be made of various semi-rigid torigid materials, including plastic, aluminum, polymer, stainless steel,silicone based material, synthetic isoprene, isoprene, thermoplastics,and the like. It should be appreciated by one skilled in the art that awide range of materials or mixtures of materials, with propertiessimilar to the above-listed materials may be used to construct thereservoir 20 of the device port cleaner 100. The cutout forming theopening 22 in the reservoir 20 may also be of various shapes. The shapeof opening 22 may depend on the shape of the device port intended to beinserted into the device port cleaner 100 for cleaning. The opening 22may be formed to be similar to the overall shape of the reservoir 20.For example, the opening 22 may be shaped to be a square cutout, arectangular cutout, a conical cutout, and the like.

In FIG. 4, the reservoir 20 of the device port cleaner 100 may contain adisinfecting agent 40 for cleaning device ports inserted into the deviceport cleaner 100. The disinfecting agent 40 may be any antimicrobial orantiseptic agent including ethyl alcohol, medical grade alcohol,isopropyl alcohol, povidone iodine, and the like. The disinfecting agent40 may also be in a liquid, gel, or hydrogel form with variousviscosities. The disinfecting agent 40 may be initially sealed withinthe reservoir 20 by the membrane 30 of the device port cleaner 100 untilexposed to a device port inserted into the device port cleaner 100. Thereservoir 20 containing the disinfecting agent 40 may be sealed by themembrane 30 to prevent the disinfecting agent 40 from leaking out of thedevice port cleaner 100 prior to use. The membrane 30 may also separateand protect the interior of reservoir 20 and the disinfecting agent 40from the external environment or contaminants.

Turning to FIGS. 5, 6A, and 6B, the membrane 30 may comprise a bulbcavity 34 positioned near the center of the membrane 30. The bulb cavity34 may further comprise an upper lip ring 36 and a widened contourgroove 38. The upper lip ring 36 may be positioned along thecircumference of the opening of the cavity 34 adjacent to the outersurface 32 of the membrane 30. The upper lip ring 36 may extend from theouter surface 32 of the membrane 30 towards the interior opening of thecavity 34. The extension of the upper lip ring 36 may be formed by thewidened contour groove 38 cutout adjacent and below the upper lip ring36. The widened contour groove 38 may be formed by a circumferentialrounded cutout along the interior surface of bulb cavity 34 whileleaving a portion of the membrane 30 and the top surface 32 intact. Thewidened contour groove 38 cutting into the interior portion of themembrane 30 may form the upper lip ring 36 extending along the outersurface 32. The upper lip ring 36 may extend over the widened contourgroove 38 towards the interior of the bulb cavity 34.

The widened contour groove 38 may outline a base 31 of the cavity 34.The base 31 may further comprise a slit 33 that allows for the insertionof a device port. The base 31 may be opposite of the upper lip ring 36and the opening of the cavity 34. The membrane 30 may be made of amaterial capable of creating a tight seal that may isolate thedisinfecting agent 40 from the outside environment and containments.Furthermore, the membrane 30 may comprise an elastic material to enablethe membrane to adapt to the specific shapes of different inserteddevice ports. In an embodiment, the membrane 30 may be made of variousmaterials including silicone, polymer, synthetic isoprene, isoprene,polymer, thermoplastics, thermoplastic polymers, thermoplasticelastomers, and the like.

In the embodiment shown in FIGS. 7 and 8, the membrane 30 may be securedover the opening 22 to seal the interior of the reservoir 20. Themembrane 30 may seal off the opening 22 by being secured along theinterior surfaces of the reservoir 20, or exteriorly around the outercircumference of the opening 22. As shown in FIG. 7, the membrane 30 maybe attached interiorly by positioning the outer edge 21 of the membrane30 within an indentation 22 along the inner walls of the reservoir 20.The membrane 30 may also be attached by other mechanical means orfasteners including an adhesive, a snap fit fastener, a loop retainingring, and the like. In FIG. 8, the membrane 30 may be attachedexteriorly by securing the membrane over the top edge 24 of thereservoir 20. The membrane 30 may be secured exteriorly to the reservoir20 mechanically by affixing the top edge 24 of the reservoir 20 into acircular indention 35 along the bottom surface of the membrane 30. Thesize and shape of the indention 35 in the membrane 30 may substantiallymatch the size and shape of the top edge 24 of the reservoir 20. Themembrane 30 may also be affixed over the opening 22 of the reservoir 20with an adhesive, or retained by mechanical fasteners such as clips,bolts, rivets, clamps, and the like. The membrane 30 may also be bondedor affixed to the inner walls of the reservoir 20 without the indentions22.

Turning to FIGS. 9A-9D, the slit 33 in the membrane 30 of the deviceport cleaner 100 may comprise various configurations to aid inmaintaining a seal when the device port is inserted and penetrates themembrane 30. The slit 33 may allow the device port to access theinterior of the reservoir 20 by functioning as a valve across themembrane 30. The slit 33 in the membrane 30 may allow for smooth passageof the device port through the membrane 30 to immerse the device port inthe disinfecting agent 40. The slit 33 may function as a valve capableof maintaining the seal within reservoir 20 after being penetrated bythe device port. FIGS. 9A-9D show a plurality of configurations for slit33 that may be made in the membrane 30 to allow penetration of thedevice port through the membrane 30. In FIG. 9A, the membrane 30 maycomprise a slit 33A formed by one concentric slit as shown. In FIG. 9B,the membrane 30 may comprise a slit 33B formed by two concentric slitssubstantially perpendicularly crossed. In FIG. 9C, the membrane 30 maycomprise a slit 33C formed by four linear slits each crossed at thecenter of each of the other slits. In FIG. 9D the membrane 30 maycomprise a slit 33D formed by three linear slits positioned in the shapeof the letter “I.”

The membrane 30 with slits 33A-33D may operate as a dynamic seal duringthe insertion or removal of the device port through the membrane 30. Themembrane 30 with slits 33 may also operate as a static seal when thedevice port is inserted or removed. Following the removal of the deviceport inserted into the device port cleaner 100 for cleaning, themembrane 30, and the slits 33 may recover to their original positionsre-sealing the reservoir 20. The slit 33 configurations may not belimited to only the examples shown, but may be expanded to include anyother configuration known to one of ordinary skill that may enable anelastic membrane to maintain a seal around an area when pierced by anobject. Alternatively, the location, quantity, shape, and size of theslit 33 may vary in accordance with the size of the reservoir 20, thedimensions, or specifications of the membrane 30, or the size of thedevice port the device port cleaner 100 may he intended to be used with.The slit 33 configurations shown in FIGS. 9A-9D may be made in themembrane 30 affixed over the top edge 24 of the reservoir 20 as well asin the membrane 30 affixed within the interior walls of reservoir 20.Alternatively, the membrane 30 may not comprise any slits 33 at all.

When the device port penetrates the membrane 30 to access thedisinfecting agent 40 within the reservoir 20, the membrane 30 maycontinue to create a seal within the reservoir 20 while the device portis partially immersed within the disinfecting agent 40. The slit 33 inthe membrane 30 may allow the device port to pierce the membrane 30 justenough for the device port to access the disinfecting agent 40 withoutexposing the sealed interior portion of the reservoir 20 to the externalenvironment. The membrane 30 may still seal the disinfecting agent 40within the reservoir 20 to disinfect the inserted device port whilepreventing leakage when the device port is partially inserted.

Turning to FIG. 10, in an embodiment, the lid 10 may be used to printvarious labels 70 and identification data relating to the device portcleaner 100 or the device port the cleaner 100 is intended to be usedwith. Other examples of labels that may be printed on the lid 10 mayinclude but is not limited to the brand name, the manufacturing date,the contents within the reservoir 20, and the like.

FIGS. 11A and 11B show an alternative embodiment of the lid 10 tofurther secure the lid 10 over the membrane 30 and the reservoir 20. Inan embodiment as shown in FIG. 11A, the lid 10 may further comprise apair of extrusions 12A, 12B that may be fitted into the bulb cavity 34in membrane 30 to further support the coupling of the membrane 30 to thelid 10. The extrusions 12A, 12B in lid 10 may contact the lip ring 36and base 31 of the cavity 34 when the lid 10 is fitted over the membrane30 on to the reservoir 20. The extrusions 12A, 12B may also contact aportion of the widened contour groove 38. As shown in FIG. 12B, in anembodiment, the extrusions 12A, 12B fitted inside the cavity 34 when thelid 10 is secured may further support and maintain the formation of thecavity 34 during storage of the cleaner 100.

Referring to FIGS. 12-15, the lid 10 may be positioned over the membrane30 and the opening 22 of the reservoir 20 to protect the membrane 30prior to the device port being inserted into the device port cleaner100. The outer diameter of the outer surface of the reservoir 20 may besized to be slightly smaller than the interior diameter of the lid 10such that the lid 10 may be fitted over the reservoir 20. The lid 10 maycover the membrane 30 and the opening 22 by being affixed to any one ofthe reservoir 20, the membrane 30, or both. FIGS. 12-13 show a lid 10being affixed to the reservoir 20 directly. In FIG. 13, the lid 10 andthe outer surface of the reservoir 20 may both further comprisethreading that may be used to secure and thread the lid 10 over thereservoir 10 and the membrane 30. The lid 10 may further comprise aseries of inner threading 14 extending along the interior circumferenceof the lid 10. The reservoir 20 may further comprise a series of outerthreading 26 extending around the exterior surface and circumference ofthe reservoir 20. Lid 10 may be screwed onto the reservoir 20 by matingthe inner threading 14 of the lid 10 with the outer threading 26 of thereservoir 20.

Turning to FIGS. 14 and 15, in another embodiment, the lid 10 may bedirectly affixed to the membrane 30 as shown. In FIG. 15, the lid 10 andthe membrane 30 may be secured together by threading the lid 10 onto themembrane 30. The lid 10 may comprise an inner threading 14 along theinterior surface of the lid 10. The membrane 30 may comprise a series ofthreaded cuts 37 around the exterior circumference of the membrane 30that may couple with the inner threading 14 of lid 10. The threaded cuts37 may be sized to fit the inner threading 14 formed along the interiorsurface of lid 10. The lid 10 may be screwed over the membrane 30 bymating the inner threading 14 of the lid 10 with the threaded cuts 37 inthe membrane 30. Alternatively, the lid 10 may be a thin foil bondedover at least one of the opening 22 and the membrane 30. The lid 10 maythen be peeled off prior to use. Alternatively, the lid 10 may be madeof other materials including aluminum paper, aluminum polymer, polymer,nylon, and the like.

As shown in FIG. 16, a device port 200 may be inserted into the deviceport cleaner 100 to sterilize or disinfect a portion of the port 200. Touse the device port cleaner 100, the lid 10 may first be removed fromthe cleaner 100 to expose the membrane 30. After removal of the lid 10,the device port 200 may be inserted into the device port cleaner 100 bypenetrating the membrane 30 with the port 200 to access the reservoir20.

Turning to FIGS. 17 and 18, the device port 200 may access the reservoir20 by penetrating the membrane 30. The device port 200 may be insertedinto the reservoir 20 through the base 31 of the bulb cavity 34. Thedevice port 200 may penetrate the slit 33 in base 31. The upper lip ring36 of the bulb cavity 34 may be formed from an elastic material suchthat the ring 36 may accommodate for the geometry of the device port200. As the device port 200 is inserted into the bulb cavity 34, theupper lip ring 36 expands to contact the outer circumference of thedevice port 200. In FIG. 18, as the device port 200 penetrates the base31 of the membrane 30, the upper lip ring 36 may contact the device port200 and form a seal. After the membrane 30 is initially penetrated bythe port 200, a portion of the penetrated base 31 formed from the slits33 may remain in contact with the device port 200 such that a secondcontact point and seal may be formed between the base 31 and the deviceport 200. When the membrane 30 is penetrated by the port device 200 toaccess the reservoir 20, the lip seals formed by the upper lip ring 36and the base 31, with the device port 200, may allow the membrane 30 tomaintain the seal within the reservoir 20 while the device port 200 isbeing inserted. The lip seals may also operate to prevent leakage of thedisinfecting agent 40 when the device port 200 is inserted into thereservoir 20. The lip seal and the membrane 30 may also physicallysupport the insertion and position of the device port 200 when thedevice port 200 is inserted into the device port cleaner 100.

As shown in FIGS. 21 and 22, the lip seals may enable the device port200 to be supported by the device port cleaner 100 such that the deviceport 200 may be inserted into the device port cleaner 100 in anyorientation without spillage. FIG. 21 shows that the device port 200 maybe inserted into the device port cleaner 100 in a horizontalorientation. When inserted, the membrane 30 may support the device port200 such that even when at a horizontal or an angled orientation, thedevice port 200 may not inadvertently lose contact with the cleaner 100.FIG. 22 shows that the base of the reservoir 20 may also comprise a flatbottom to support the cleaner 100 when the device port 200 is insertedin a vertical orientation. When the device port 200 is inserted into thedevice port cleaner 100 in a vertical orientation, the membrane 30 mayhold the device port 200 in place as the device port cleaner 100 is seton its flat bottom.

When engaged with the device port cleaner 100, the device port 200 maybe kept sterile and protected from microbes for up to seven days.Furthermore, in an alternative embodiment as shown in FIGS. 19-20, thelip seal formed by the upper lip ring 36 when the device port 200 isinserted may function regardless of the existence of the base 31 or thespecific design of the slit 33 in the base 31. The elastic nature of themembrane 30 may allow for the device port cleaner 100 to be adaptable tothe shapes and sizes of most medical device ports. Even without the base31 or the complete rupture of the base 31 when the device port 200 isinserted such that there is no second lip seal formed by the base 31,the device port cleaner 100 may still successfully operate since theupper lip ring 36 may still form a lip seal with the device 200

Once the device port 200 penetrates the membrane 30 to access thereservoir 20, the device port 200 may be exposed to the disinfectingagent 40. Portions of the inserted device port 200 or the entire deviceport 200 may be inserted into the device port cleaner 100 for cleaning.The device port cleaner 100 may effectively wash both the inner andexterior surface of the device port 200 with the disinfecting agent 40,thereby cleaning surfaces not normally accessible by traditionalcleaning methods. The disinfecting agent 40 may reduce and or eliminatemicrobial and or bacterial populations that may reside on any of thesurfaces of the device port 200. As shown in FIG. 23, the inserteddevice port 200 may be further actively cleaned by physicallymanipulating at least one of the device port cleaner 100 or the deviceport 200 to agitate the disinfecting agent 40 over the immersed surfacesof the device port 200. A twisting motion of the device port 200 may beused to ensure complete exposure of all surfaces of the device port 200needing to be cleaned.

Turning to FIGS. 24-25, the membrane 30 may also be formed from a softplastic or rubber based material such that when the device port 200 isinserted through the membrane 30, the upper lip ring 36 expands upon theentry of the port 200 to also create a lip seal. FIG. 24 shows that theelastic nature of the membrane 30 allows the membrane 30 to return toits original shape while maintain a sealed environment within thereservoir 20 during and after the device port 200 is withdrawn. Themaintaining of the sealed and sterile environment after the device port200 is withdrawn may enable the device port cleaner 100 to be used morethan once.

The device port cleaner 100 may further comprise a release mechanism 50within the reservoir 20 for retaining and releasing the disinfectingagent 40. The release mechanism 50 may be used to retain thedisinfecting agent 40 prior to the cleaner 100 being used. When thedevice port 200 is inserted into the device port cleaner 100, therelease mechanism 50 may then release the disinfecting agent 40 to washthe inserted portion of the device port 200. As shown in FIGS. 26A and26B, the release mechanism 50 may be engaged to dispense thedisinfecting agent 40 as the device port 200 is inserted into thecleaner 100. In an embodiment, the release mechanism 50 may be anabsorbent and compressible material. The release mechanism 50 mayinitially retain the disinfecting agent 40 by soaking up thedisinfecting agent 40 prior to use. The release mechanism 50 orcompressible material may then be compressed, releasing the disinfectingagent 40, as the device port 200 is inserted into the reservoir 20.Alternatively, the release mechanism may be coated in the disinfectingagent 40 or passively immersed in the disinfecting agent 40. The releasemechanism 50 may be sized and shaped to closely fit within the reservoir20 while still remaining compressible. Compression of the releasemechanism 50 by the device port 200 as it is inserted into the cleaner100, as shown in FIG. 26B, may dispense the disinfecting agent 40retained by the release mechanism 50. The release mechanism 50 may beformed from an absorbent, porous, and compressible material includingbut not limited to a sponge, absorbent cotton, polyurethane, polyvinylalcohol, silicone, cellulose wood fibers, foam, foamed plastic polymers,and the like.

In an alternate embodiment, the membrane 30 may further comprise aninternal threading 39 for inserting the device port 200 into the devicecleaner 100. Once the device port 200 penetrates the base 31 in themembrane 30, the device port 200 may be threaded into the device portcleaner 100. As shown in FIGS. 27A and 27B, the internal threading 39may be adjacent to the membrane 30 below the bulb cavity 34. Afterpenetrating the slits 33 of the base 31 in the membrane 30, the deviceport 200 may be threaded into the internal threading 39 to fasten andsecure the port 200. Alternatively, the device port 200 may be threadedinto the membrane 30 prior to penetrating the base 31. The penetratedslits 33 in base 31 may maintain a tight and close-fit seal around theexternal surface of the inserted device port 200 as the device port 200is being threaded into the device port cleaner 100. The internalthreading 39 may further secure the positioning of the inserted deviceport 200 and prevent inadvertent withdrawal of the port 200 prior touse, thereby increasing the risk of being re-contaminated. The upper lipring 36 and the base 31 of the membrane 30 may both still form a lipseal around the device port 200 after insertion. The internal threading39 and the membrane 30 may be of a single component and may be formed asa single unitary construction. Alternatively, the threading 39 and themembrane 30 may be more than one components assembled, fitted, or bondedtogether.

FIGS. 28A-28C show a device port 200 being threaded into an alternativeembodiment of the device port cleaner 100. After the port 200 penetratesthe membrane 30, the device port 200 may be further secured in thecleaner 100 by being threaded into the internal threads 39 of the deviceport cleaner 100. As the device port 200 is being threaded into thecleaner 100, FIG. 28B shows the device port 200 compressing against therelease mechanism 50. The compression of the release mechanism 50 mayrelease the device port 200 to the disinfecting agent 40. The threadingof the device port 200 may aid in compressing the release mechanism 50since it allows for the gradual and controlled compression of therelease mechanism 50, as well as provide support against any push backfrom the compressed release mechanism 50 against the inserted port 200.The internal threading 39 may also act as a retainer in keeping thedevice port 200 and the device port cleaner 100 engaged until thecleaner 100 is purposefully removed. FIG. 28C shows that when the deviceport 200 is un-threaded and removed, the membrane 30 including the slits33 and the release mechanism 50 may all return to their originalpositions.

The lip seals formed between the membrane 30 and the inserted deviceport 200, in conjunction with the internal threading 29 in the membrane30, may still permit the use of the device port cleaner 100 withdifferent device ports of varying diameters. As an example of theadaptive nature of the cleaner 100, the device port cleaner 100 may alsobe used with thinner device ports such as a needle port 210, as shown inFIGS. 29A-29C. The needle port 210 may be inserted into the device portcleaner 100 as it is penetrated through the membrane 30 and thenthreaded with the internal skirt 39. The lip seal formed by the slits 33in the membrane 30 may adapt to the thinner diameter of the body of theneedle port 210 to seal the interior of the reservoir 20 fromcontaminants. As the needle port 210 is threaded into the reservoir 20of the cleaner 100, the needle port 210 may compress the releasemechanism 50 to release the disinfecting agent 40. The disinfectingagent may sterilize and clean the inserted portion of the needle port210. FIGS. 30 and 31 show that regardless of the diameter of theinserted device port, the lip seal produced by the slit 33 in themembrane 30 may ensure a “zero clearance” seal between the membrane 30and both the device port 200 or the needle port 210.

The device port cleaner 100 may also be used to clean the male/femaleend of a medical syringe 220. As shown in FIGS. 32 and 33, themale/female connecting end of the medical syringe 220 may be similarlyinserted into the device port cleaner 100 for cleaning. The device portcleaner 100 may clean both the inner and outer surfaces of a connectingend 224 of the medical syringe 220 when inserted into the device portcleaner 100. In an embodiment, as shown in FIG. 34, the reservoir 20 mayfurther comprise internal protrusions 28A-28C to accommodate for thegeometry of the inserted connecting end 224 of the medical syringe 220.The protrusion 28C may clean the internal thread skirt of the medicalsyringe 220. The larger protrusions 28A, 28B may clean the conicalfitting area 222 of the medical syringe 220. The shape, size, quantity,and design of the protrusions within the reservoir 20, as well as thereservoir 20 itself, may be adapted to accommodate for the variousgeometry and shapes of different connecting ends of both the device port200 and the medical syringe 220.

Turning to FIG. 35, another embodiment of the device port 100 is shownwith the device port 100 further comprising additional features on themembrane 30 and reservoir 20. As shown in FIGS. 36 and 37, in anembodiment, the membrane 30 may further comprise a membrane flange 81containing a series of membrane perforations 80, a membrane body 82, anda series of membrane grooves 83 formed into the exterior surface of themembrane body 82. The membrane flange 81 may be formed around the bulbcavity 34 and extend circumferentially outwards pass the outer surfaceof the membrane body 82. The membrane body 82 may extend downwards fromthe membrane flange 81 like a hollow cylinder with the interior surfaceof the membrane body 82 approximately outlining the bulb cavity 34. Themembrane body 82 may extend outwards from the membrane flange 81 in thedirection towards the interior of reservoir 20 when the membrane 30 iscoupled to the reservoir 20 during assembly. The membrane flange 81 mayfurther comprise a series of membrane perforations 80 formed into themembrane flange 81. Each of the membrane perforations 80 may be formedin the shape of a circular cutout as shown in FIGS. 36 and 37.Alternatively, the membrane perforations 80 may be any other shape orsize such as oval, triangular, square, quadrilateral, and the like. Themembrane perforations 80 may be arranged concentrically around the bulbcavity 34 each equal distant from the bulb cavity 34.

The membrane perforations 80 may extend from the top surface of themembrane flange 81 through the entirety of the membrane flange 81 andmembrane body 82. The membrane body 82 may be of various thicknessessuch that the extrusion of the membrane perforations 80 may partiallycut through the membrane body 82 to form the membrane grooves 83, asseen in FIG. 36. Since the membrane grooves 83 are formed by theextension of the membrane perforations 80 through the membrane body 82,the number, shape, size, and position of each the membrane grooves 83may match the number, shape, size, and position of each of theconcentrically placed membrane perforations 80. The maximum width ofmembrane grooves 83 formed by the extrusion of the membrane perforations80 may also match the diameter of each of the membrane perforations 80.The membrane body 82 may be of various thicknesses. The membraneperforation 80 may be of various diameters. In the instance that theouter surface of the membrane body 82 from the bulb cavity 34 does notextend pass or intercept the placement and opening of the membraneperforations 80, there may not be any membrane grooves 83 formed in themembrane body 82. In the instance that the outer surface of the membranebody 82 extends pass the entirety of the membrane perforation 82,cylindrical cutouts, instead of the membrane grooves 83, may be extrudedthrough the entire membrane body 82 at each of the membrane perforations82. The sectional view of the membrane 30 in FIG. 37 shows the base 31of the bulb cavity 34 with slits 33, and the interior surface of themembrane body 82 with the threading 39. The threading 39 spirals alongthe interior surfaces of the membrane body 82. The threading 39 beginswhere the membrane body 92 extends from the membrane flange 81 near thebottom surface of the base 31, and extends towards the base of themembrane body 82.

Turning to FIG. 38, in an embodiment, the reservoir 20 may furthercomprise a reservoir body 71 with reservoir grooves 74, a reservoirflange 73, and a reservoir ring 72. The reservoir flange 73 may beformed along the opening end of the reservoir 20 and extend outwardsaway from the interior of the reservoir 20. From the top surface of thereservoir flange 73, the reservoir ring 72 may be initially formed alongthe outer circumference of the reservoir flange 74 and further extend inthe direction of the opening of reservoir 20. The extension of thereservoir ring 72 may increase the overall height of the walls of thereservoir 20. Along the interior surface of the reservoir body 71, thereservoir 20 may further comprise a series of reservoir extrusions 75extending out of the opening of the reservoir 20 through the interioropening of the reservoir flange 73 and the reservoir ring 72, Thereservoir extrusions 75 may be formed in the shape of a series ofconcentric cylindrical tubes extending out of the interior of thereservoir 20. The reservoir body 71 may further comprise a series ofreservoir grooves 74 formed in the outer surface of the reservoir body71. The reservoir grooves 74 may extend from the base of the reservoirbody 71 towards the reservoir flange 73. The reservoir grooves 74 may beof various width, length, depth, and number subject to the preference ofthe user or manufacturer. The reservoir grooves 74 may function toprovide a grip for handling the device port cleaner 100.

The reservoir extrusions 75 are provided to mate with the membraneperforations 80 as the membrane 30 is coupled to the reservoir 20 bybeing secured over the opening 22. As such, the position, size, shape,and number of reservoir extrusions 75 may match the correspondingfeatures of the membrane perforations 80, respectively. The ends of thereservoir extrusions 75 may be sized to be just slightly smaller thanthe membrane perforations 80 such that the reservoir extrusions 75 maysnuggly fit through each of the corresponding membrane perforations 80.Alternatively, each of the reservoir extrusions 75 may be designed andformed such that when the reservoir extrusion 75 is mated with themembrane perforation 80, the portion of the reservoir extrusion 75protruding out of the top surface of the membrane flange 81 is bucked tothe membrane 30 like a rivet, permanently bonding the membrane 30 to thereservoir 20. The reservoir extrusion 75 and the corresponding rivetthat may be formed when connected to the membrane 30 may be of varioussize and shapes such as circular, oval, and the like.

Turning to FIGS. 39A and 39B, the membrane 30 shown in FIG. 36 may becoupled to the reservoir 20, as shown in FIG. 38, by fitting theentirety of the membrane 30 within the reservoir ring 72. The membrane30 may be positioned within the reservoir ring 72 to cover and seal theopening 22 of reservoir 20. The membrane 30 may couple with thereservoir 20 such that the bottom surface of the membrane flange 81contacts the top surface of the reservoir flange 73. The fitting of themembrane 30 over the reservoir 20 in the instant embodiment may alsorequire that the protruding ends of each of the reservoir extrusion 75be aligned with a corresponding membrane perforation 80. When aligned,each of the reservoir extrusion 75 may be positioned to extend through arespective membrane groove 83 and membrane perforation 80 as themembrane 30 is fitted against the reservoir flange 73. When the membrane30 is fitted within the reservoir ring 72 and covering the opening 22 ofreservoir 20, as shown in FIGS. 39Aand 39B, the outer surface of themembrane 82 may be contacted against the interior surfaces of thereservoir body 71. The height of the reservoir ring 72 may be formed tobe taller than the thickness of the membrane flange 81 such that whenthe membrane 30 is fitted within the reservoir ring 72 and the membraneflange 81 is brought in contact with the reservoir flange 73, the topsurface of the membrane flange 81 is positioned lower than the topsurface of the reservoir ring 73 inside the interior of the reservoir20. When the membrane 30 is fitted against the reservoir flange 73, eachof the aligned reservoir extrusion 75 may extend out of a respectivemembrane perforation 80 such that the extrusion 75 protrudes pass thetop surface of the membrane 30. In FIG. 39B, an alternative embodimentis shown wherein once the membrane 30 is coupled to the reservoir 20with each of the reservoir extrusion 75 mated through a respectivemembrane perforation 80, the protruding portion of the reservoirextrusion 75 may buck over the top surface of the membrane 30 like arivet, permanently bonding the membrane 30 to the reservoir 20.

FIG. 40 shows an embodiment of an assembled device port cleaner 100 withthe lid 10 sealed against the top surface of the reservoir ring 72. Therecession between the top surface of the membrane flange 81 and the topsurface of the reservoir ring 72, once the membrane 30 is fitted overthe opening 22 of the reservoir 20, may allow the lid 10 to completelyseal the membrane 30 and the interior of the reservoir 20 from theexternal environment. When sealed, only the outer surface of thereservoir 20 and the lid 10 may be exposed to the external environment.This allows the interior of the reservoir 20, the release mechanism 50,the disinfecting agent 40, and the membrane 30 to remain isolated withinthe device port cleaner 100 in sterile conditions. In the embodimentshown, the lid 10 may comprise an induction foil seal that may be peeledoff from the reservoir ring 72 prior to using the device port cleaner100. The lid 10 may further comprise a foil lid liner. Alternatively,the lid 10 may be made of other materials including aluminum paper,aluminum polymer, polymer, nylon, and the like.

FIGS. 41A-41D show in an embodiment, a method of using the device portcleaner 100 shown in FIG. 41A to clean the device port 200. Before usingthe device port cleaner 100, the lid 10 may first be peeled off orremoved, as shown in FIG. 41B, to expose the top surface of the membrane30 and the bulb cavity 34. In FIG. 31C, the end of the device port 200needing to be cleaned may then be brought in alignment with the bulbcavity 34 in the membrane 30. The bulb cavity 34 is where the deviceport 200 may penetrate the membrane 30 as the device port 200 isinserted into the reservoir 20 for cleaning. The device port 200 maypenetrate the membrane 30 by being inserted through the slits 33 in thebase 31 of the bulb cavity 34. As the device port 200 is inserted intothe reservoir 20 through the membrane 30, the upper lip ring 36 of thebulb cavity 34 may conform to the shape of the outer circumference ofthe device port 200 and form a lip seal against the device port 200, asshown FIG. 41D.

The sectional view of the device port 200 inserted into the device portcleaner 100 in FIG. 42 shows that the device port 200 compressing therelease mechanism 50 as it is inserted. The release mechanism 50 mayhold a disinfecting agent 40 that may be released as the releasemechanism 50 is compressed by the device port 200. Alternatively, thereservoir 20 may only contain a disinfecting agent 40 without therelease mechanism 50 wherein the device port 200 may be exposed to thedisinfecting agent 40 directly as it is inserted into the device portcleaner 100.

FIG. 42 also shows the device port 200 being inserted by being threadedinto the device port cleaner 100. The device port 200 may be threadedagainst the threading 39 along the interior of the membrane body 82 tosecure the device port 200. The threading of the device port 200 intothe device port cleaner 100 may ensure a secure contact with the deviceport cleaner 100, prevent the inadvertent withdrawal and subsequentcontamination of the device port 100, and prevent spillage of theinterior contents of the reservoir 20. FIG. 43 shows a user threadingthe device port 200 into the device port cleaner 100 by gripping thereservoir grooves 74 in the reservoir body 20. The reservoir grooves 74provides grip for handling the device port cleaner 100 and may reducethe risk of accidentally dropping the device port cleaner 100 whilehandling it.

Having thus described the present invention by reference to certain ofits exemplary embodiments, it is noted that the embodiments disclosedare illustrative rather than limiting in nature and that a wide range ofvariations, modifications, changes, and substitutions are contemplatedin the foregoing disclosure and, in some instances, some features of thepresent invention may be employed without a corresponding use of theother features. Many such variations and modifications may be considereddesirable by those skilled in the art based upon a review of theforegoing description of exemplary embodiments, Accordingly, it isappropriate that any claims supported by this description be construedbroadly and in a manner consistent with the scope of the invention.

We claim:
 1. A device cleaner for cleaning an end of a device port,comprising: a hollow body with an opening; a disinfecting agent withinthe hollow body; a membrane covering the opening of the hollow body,wherein the membrane creates a seal within the hollow body; and whereinthe membrane is configured to be penetrable by a device port to providethe device port access into the hollow body, and wherein when themembrane is penetrated by the device port, the membrane maintains theseal within the hollow body with the device port.
 2. The device cleanerof claim 1, further comprising a lid configured to fit over at least oneof the membrane or the opening in the hollow body.
 3. The device cleanerof claim 2, wherein the lid comprises an induction foil seal.
 4. Thedevice cleaner of claim 2, wherein the lid further comprises a foil lidliner.
 5. The device cleaner of claim 2, wherein the lid is reusable. 6.The device cleaner of claim 2, wherein the lid further comprises atleast one protrusion configured to extend into the membrane when the lidis attached over the cleaner.
 7. The device cleaner of claim 2, whereinthe lid further comprises threading configured to screw the lid over atleast one of the membrane or the opening of the hollow body.
 8. Thedevice cleaner of claim 2, wherein the lid is bonded or sealed over atleast one of the membrane or opening in the hollow body.
 9. The devicecleaner of claim 2, wherein the lid further comprises identificationdata labeled on a top surface of the lid.
 10. The device cleaner ofclaim 1, wherein the membrane further comprises a slit configured to bepenetrable by a device port.
 11. The device cleaner of claim 1, whereinthe membrane comprises an elastic material.
 12. The device cleaner ofclaim 1, wherein when the membrane is penetrated by the device port alip seal is formed between the membrane and the device port to maintainthe seal within the hollow body.
 13. The device cleaner of claim 1,wherein the membrane is configured to be penetrated by the device portcomprising male connectors, female connectors, medical device leers,medical device hubs, syringes, and any medical device connector fittingwithin the diameter of the opening in the device cleaner.
 14. The devicecleaner of claim 1, wherein when the membrane is penetrated by thedevice port, the membrane is configured to provide a tight-fit aroundthe device port to physically support and maintain the inserted positionof the device port.
 15. The device cleaner of claim 1, wherein themembrane further comprises a series of concentric perforations, thehollow body further comprises a series of extrusions extending out ofthe opening in the hollow body, and wherein the series of extrusionsmust align and mate with the series of perforations in order for themembrane to cover the opening in the hollow body.
 16. The device cleanerof claim 15, wherein when the series of extrusions align and mate withthe series of perforations, the series of extrusions form a rivet withthe membrane.
 17. The device cleaner of claim 1, wherein the hollow bodyfurther comprises an outer surface with a series of grooves to providethe hollow body with grip.
 18. The device cleaner of claim 1, furthercomprising a removable lid configured to fit over the opening in thehollow body to seal the membrane and the interior of the hollow bodyfrom the external environment.
 19. The device cleaner of claim 1,wherein the hollow body further comprises an absorbent material used tohold the disinfecting agent.
 20. The device cleaner of claim 19, furthercomprising a release mechanism to release the disinfecting agent fromthe absorbent material.
 21. The device cleaner of claim 19, wherein theabsorbent material comprises a sponge, absorbent cotton, polyurethane,polyvinyl alcohol, silicone, cellulose wood fibers, foam, and foamedplastic polymers.
 22. The device cleaner of claim 20, wherein therelease mechanism comprises configuring the absorbent material toreleathe disinfecting agent when engaged with a mechanical force from atleast one of the device port accessing the hollow body or the userapplying a force against the exterior of the hollow body.
 23. The devicecleaner of claim 1, further comprising an internal threading within thehollow body configured to enable the device port to be threaded throughthe membrane into the hollow body.
 24. The device cleaner of claim 1,wherein the disinfecting agent comprises a liquid, a gel, or a hydrogelform with various viscosities.
 25. The device cleaner of claim 1,wherein the disinfecting agent comprises at least one of a microbialagent, antiseptic fluid, ethyl alcohol, medical grade alcohol, isopropylalcohol, and povidone iodine.
 26. The device cleaner of claim 1, furthercomprising a scrubbing feature within the hollow body.
 27. A devicecleaner for cleaning an end of a device port, comprising: a hollow bodywith a first chamber and a second chamber, wherein the first chamber andthe second chamber are separated by a barrier; an opening in the firstchamber providing access into the first chamber of the hollow body fromthe outside; a disinfecting agent within the second chamber of thehollow body; a release mechanism configured to disrupt the barrier torelease the disinfecting agent from the second chamber of the hollowbody to the first chamber; and a membrane covering the opening in thefirst chamber, wherein the membrane creates a seal within the hollowbody, wherein the membrane is configured to be penetrable by a deviceport to provide the device port access into the first chamber of thehollow body, and wherein when the membrane is penetrated by the deviceport, the membrane maintains the seal within the hollow body with thedevice port.
 28. The device cleaner in claim 27, wherein the barrier isa physical barrier comprising a valve, membrane, sheet, film, veil,panel, and plate.
 29. A method for using a device cleaner, comprising:obtaining a device cleaner comprising: a hollow body with an opening; adisinfecting agent within the hollow body; a membrane covering theopening of the hollow body, wherein the membrane creates a seal withinthe hollow body; and wherein the membrane is configured to be penetrableby a device port to provide the device port access into the hollow body,and wherein when the membrane is penetrated by the device port, themembrane maintains the seal within the hollow body with the device port;penetrating the membrane with a device port needing to be cleaned toinsert a portionof the device port into the hollow body of the deviceport cleaner; exposing the portion of the device port needing to becleaned and inside the hollow body to the disinfecting agent; andremoving the device port from the hollow body of the device portcleaner.
 30. The method in claim 29, wherein the device cleaner furthercomprises a removable lid configured to fit over at least one of themembrane or the opening in the hollow body.
 31. The method in claim 30,further comprising removing the lid from the device port cleaner toexpose the membrane.
 32. The method in claim 29, wherein the devicecleaner further comprises an absorbent material used to soak up and holdthe disinfecting agent.
 33. The method in claim 32, further comprisingcompressing the device against the absorbent material to release thedisinfecting agent.
 34. The method in claim 29, wherein the devicecleaner further comprises an internal threading within the hollow bodyconfigured to enable the device port to be threaded through the membraneinto the hollow body.
 35. The method in claim 34, further comprisingthreading the device port into the hollow body to secure the device portin the device cleaner.